FINDING: The search results are a scattered mix of pedagogical videos (Pell's equation, Markov chains, continued fractions) and one substantive arXiv paper on super Weyl groups and Coxeter graphs — no unified "unsolvable competition problem" breakthrough is present. The core mathematical essence lies in the arXiv paper's extension of Weyl group/Coxeter machinery to Lie superalgebras. MATH: - Pell equation: \(x^2 - Dy^2 = 1\), solved via continued fraction convergents of \(√D\). - Markov chain stationary vector \(π\): \(π P = π\), \(∑ π_i = 1\). - Super Weyl group (arXiv 2401.11068): quotients of Weyl groups for basic classical Lie superalgebras; Coxeter graphs defined via sequences for fundamental root systems. Coxeter number \(h\) = order of product of simple reflections; for finite Weyl groups, \(h\) relates to eigenvalues of the Coxeter element as \(exp(2π i k/h)\). - No explicit new equation or constant extracted from the videos (they are expository). Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com
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Andrew Stewart Caldin (2026) studied this question.
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